AMS Discrete Liquid Sampler Kit
Made mainly from durable stainless steel, the manual cable controlled discrete liquid sampler is heavier than most bailers for straight deployment into liquid.
Features
- Weight allows for easy and straight deployment
- Includes 25 ft. cable
- Durable stainless steel construction
- Expedited repair and warranty service
- Lifetime technical support
- More
Overview
AMS Manual Cable-Controlled Discrete Liquid Samplers are used to collect discrete or composite liquid samples in drums, tanks, ponds, lagoons, and other surface water bodies. They are also recommended for use in monitoring wells with inner diameters of 2" or larger. Made of stainless steel with fluoropolymer bodies, they are heavier than most bailers, allowing for an easy, straight deployment into liquids.
Operation
Samplers are lowered into the liquid to be sampled and opened at a given depth by cables or valves, depending on the product. Samplers come with 25' of cable, but you can purchase more cable if needed to sample at deeper depths. The sampler is retrieved, and samples are transferred to other containers for shipment to a laboratory for analysis.
Features
- Heavier than bailers for smoother, straighter deployment
- Can be used to sample to depths in excess of 25'
- Cable-control handle allows the upper valve of all models to be opened and closed for discrete sampling
- Easy take-apart design for decontamination and cleaning
- Fluoropolymer sampler container is clear for quick field examination
- Allows for sampling of drums, tanks, lagoons, open waters, and monitoring wells that are 2" inner diameter and larger
- Collect high-quality samples
- (1) 25' cable control
- (1) Cable control
- (1) "T" handle
- (1) Cable control fitting kit
- (1) Fluoropolymer container
- (1) Top cap with fluoropolymer valve
- (1) Dump valve cap (single valve kit only)
- (1) Metering valve (dual valve kit only)
- (2) Fluoropolymer container caps
Select Options
In The News
Combating Water Insecurity in Saskatchewan with Real-Time Data
The prairies of Saskatchewan can be described as one of the least water-secure parts of Canada, making water quality monitoring essential for informed resource management in a region already facing water insecurity. While natural physical properties worsen some of the poor water quality conditions in the region, others are connected to land use. Having grown up spending summers on the shores of Lake Huron, Helen Baulch, an associate professor at the School of Environment and Sustainability at the University of Saskatchewan , has always been dedicated to the protection of water resources. Looking back fondly at her childhood playing along the shore, Baulch also recalls the invasion of quagga mussels during her teenage years and watching the lake change as a result.
Read More
Seametrics Turbo Turbidity Logger: Boost your Turbidity Monitoring
The Seametrics Turbo Turbidity Logger is a self-cleaning turbidity sensor capable of internally logging over 260,000 data records. The sensor enables researchers, compliance officers, and contractors to monitor turbidity in various applications, from construction and dredging sites to wastewater effluent. Due to its narrow width, this device can be deployed in a range of areas, from small well spaces to rivers and streams. The stainless steel housing and built-in wiper allow the sensor to withstand long-term deployments and reduce the need for maintenance trips. The logger accurately records temperature and turbidity up to a depth of 50 meters.
Read More
Collecting Data at the Top of the World: How Scientists Retrieve Glacial Ice Cores
A helicopter touches down in the small town of Sicuani, Peru, at an elevation of 11,644 feet. Earlier that day, a boxcar brought fuel, drills, food, and other equipment for a glacial expedition. The year is 1979, and glaciologist Lonnie Thompson is preparing to lead a team to the Quelccaya ice cap in hopes of becoming the first scientists to drill an ice core sample from this glacier. The only problem? The glacier is located at 19,000 feet in one of the most remote areas of the world. The helicopter takes off from the town, but the thin atmosphere at that elevation does not allow it to safely touch down on the ice– due to the aircraft’s weight, and it becomes unstable when the air is less dense.
Read More
